
AI’s financialisation accelerates as tech giants commit $700bn to compute infrastructure
AI is rapidly becoming not just an operational input but a financial asset class. This year five leading US tech firms intend to deploy about $700bn of capital expenditure into data centres, accelerators and supporting networks, underwriting a new investable layer of compute capacity. That scale — comparable with, and in some measures exceeding, recent upstream fossil‑fuel spending — reframes racks, GPUs and power contracts as underlyings for loans, bonds and structured products rather than purely corporate costs.
Credit markets are already adapting: traditional bank lending is being supplemented by corporate bonds, syndicated loans, commercial‑mortgage‑backed securities and bespoke structured credit that mirror long‑dated data‑centre cash flows. The investor set has widened to include life insurers, pension funds and infrastructure specialists seeking duration and yield, while private‑capital managers are tightening covenants, shortening effective horizons and embedding stronger downside protections against rapid obsolescence.
Product innovation will likely follow predictable patterns — capacity‑backed loans, availability‑linked derivatives and instruments that reference GPU utilisation, latency SLAs and contracted throughput — even as fixed‑income desks reprice vendor and software credits to reflect higher capex needs. Rating agencies and regulators are sharpening focus on sponsor leverage, tenant concentration and the durability of presold cash flows as hyperscaler procurement becomes more centralised: market trackers put hyperscaler commitments at roughly $1.5tn by 2025 and broader AI‑focused data‑centre plans under consideration at about $3tn.
The financing wave increases market depth but also concentrates exposure. Underwriting now prices unique operating costs — energy, specialized cooling, contracted cloud arrangements — and must account for execution and counterparty risk tied to a narrow set of dominant platforms. Local permitting and community opposition are already a tangible drag: industry monitors attribute roughly $64bn of planned US data‑centre projects to delays or cancellations, raising schedule and transmission risks that can ripple through loans and securitisations.
Operational realities amplify credit considerations. Usage profiles for training and inference are bursty and often oriented to future peaks; the gap between capacity under construction and verified workloads creates meaningful underutilisation risk. Some operators are repurposing legacy crypto‑mining sites for GPU colocation to meet near‑term demand, but those conversions carry hardware‑supply and permitting constraints that affect financing terms.
Valuation frameworks will evolve beyond discounting cash flows to include granular operational KPIs: GPU utilisation rates, PUE (power‑usage effectiveness), mean‑time‑to‑repair and contractual uptime. Credit desks and structured‑product teams will need models for cascading outages, rapid model obsolescence and volatile energy prices — risks that sit at the intersection of technology, power systems and real‑estate underwriting.
A parallel set of innovations could create complementary, tokenised claims on compute contributions. Distributed protocols that pool heterogeneous GPUs and mint tokens tied to model training or inference revenue are emerging as an alternative route to liquidity, though they face verification, auditability and securities‑law hurdles before institutional adoption.
Supply‑chain and policy developments matter too. Upstream confirmations from foundries and system suppliers, plus shifting trade and investment arrangements, can shorten delivery windows for hyperscalers but also introduce construction and talent constraints that affect execution risk. Earnings seasons and management guidance will be closely watched as executives must justify capex with clearer timelines for revenue and margin improvement.
- Capital Expenditure (five US tech giants): $700bn
- Broader AI‑focused data‑centre investment under consideration: ~$3tn
- Hyperscaler procurement commitments (to 2025): ~$1.5tn
- Planned U.S. data‑centre projects at risk from permitting: ~$64bn
Read Our Expert Analysis
Create an account or login for free to unlock our expert analysis and key takeaways for this development.
By continuing, you agree to receive marketing communications and our weekly newsletter. You can opt-out at any time.
Recommended for you
Australian AI infrastructure firm wins $10B financing to accelerate data‑center buildout
Firmus Technologies closed a $10 billion private‑credit facility led by Blackstone‑backed vehicles and Coatue to underwrite a rapid roll‑out of AI‑optimized campuses in Australia. The debt package targets deployment of Nvidia accelerators and up to 1.6 gigawatts of aggregate IT power by 2028, embedding the project in a wider global wave of specialized, high‑power data‑center financing.
China’s 2025 AI infrastructure push raises stakes for global payments
China’s 2025 industrial program is aligning power, data centers and finance to drive lower-cost, always-on AI, accelerating commercial model rollouts and export deals that reshape where digital commerce clears. That operational edge — reinforced by energy planning, financing tools and regional regulatory moves for tokenized settlement — increases the likelihood that stablecoins and other machine-native payment rails will anchor on non‑U.S. stacks in vulnerable markets.
U.S. Debt Markets Ride a Wave of AI Data‑Center Construction
A roughly $3 trillion AI data‑center build‑out is reshaping credit demand and expanding issuance across loans, bonds and securitized products, even as concentrated hyperscaler procurement, community permitting fights and repurposed crypto‑mining campuses introduce execution and political risks. Lenders, insurers and asset managers are widening underwriting lenses—adding covenant protections, stress tests and sector‑specific cash‑flow analysis—while regulators and rating agencies scrutinize leverage, tenant concentration and geographic clustering.

